Modularized workshop building

Abstract

The invention discloses a modular workshop, and relates to the technical field of workshops. An anti-seismic module; and a connection module. Through integrated arrangement of the air pressure module, the utilization rate of the internal space of the plant module is greatly improved, the number of pipelines is further reduced, a second air supply outlet in the air pressure module can increase air flow output when a movable door is opened, a large amount of external untreated air is prevented from permeating into a workshop through air flow guiding, and negative pressure fluctuation is reduced; the negative pressure state in the workshop is stably maintained; the anti-seismic module forms horizontal and transverse outward pulling force on the air pressure module to limit the horizontal displacement amount of the air pressure module, so that it is guaranteed that the anti-seismic module does not deform, and then the integrity and stability of the equipment structure are guaranteed; by means of the connecting module, a worker can fix a plurality of workshop modules at the same time during one-time assembly, so that the installation time is greatly shortened, the problem that time and labor are wasted when the worker purely relies on bolt connection is solved, and the operation burden of the worker is greatly relieved.

Description

Technical Field

[0001] This invention relates to the field of workshop and factory technology, and specifically to a modular workshop and factory. Background Technology

[0002] Modular workshops are a type of industrial plant built using prefabricated components and standardized designs. Their core advantages lie in flexibility and scalability—the internal layout can be flexibly planned according to production needs, and the building scale can be easily expanded by adding modules, adapting to various industry application scenarios. They also offer outstanding economic efficiency and sustainability; standardized production models significantly reduce costs and material waste during on-site construction, and most modules are reusable, making later maintenance more convenient. Furthermore, their construction cycle is greatly shortened; after the modules are prefabricated in the factory, only simple assembly is required on-site, effectively reducing the overall construction time. Currently, these types of plants are widely used in manufacturing (such as automobile and electronic equipment production), logistics (such as warehousing and distribution), research and experimentation (such as R&D laboratories), agricultural production, and service industries, among others.

[0003] When existing modular workshops are put into solid dosage form production lines, a certain negative pressure must be maintained within the workshop during the solid dosage form production process to prevent the solid dosage form from diffusing into the outside environment and causing pollution. Therefore, relevant pipelines are installed on the modular workshops to control the air pressure. At this time, the modular workshops will encounter the following problems: Modular workshops require multiple sets of pipes to be introduced from the outside to achieve a negative pressure environment inside the workshop. The pipe layout is relatively chaotic, and when personnel enter and exit, it is very easy to cause an imbalance of negative pressure inside the workshop.

[0004] In modular workshops, the structures that fix multiple sets of pipelines are prone to deformation during transportation due to bumps and vibrations, which can damage the products and threaten the structural integrity and functional stability of the entire product.

[0005] When connecting and fixing multiple modular workshops, simply relying on bolts to fix the modules one by one is time-consuming, labor-intensive, has a long construction period, and places a heavy burden on the staff. Summary of the Invention

[0006] The purpose of this invention is to provide a modular workshop to solve the technical problems mentioned in the background section.

[0007] To achieve the above objectives, the present invention proposes a modular workshop building, wherein the workshop building comprises: A pneumatic module is installed on the top of the factory building module to control the pressure differential inside the workshop building; Multiple seismic-resistant modules are installed on the top of the factory building module to provide limiting and seismic protection for the pneumatic modules; A connection module is used to connect and fix multiple sets of the aforementioned factory modules; The internal space of the factory module is divided into a machine room and a work room by partitions.

[0008] Preferably, the air pressure module is mounted on the seismic-resistant module and includes an air supply duct that provides air pressure higher than atmospheric pressure and a return air duct that provides air pressure lower than atmospheric pressure. The air supply duct and the return air duct control the pressure difference of a single workshop building and are mounted on the seismic-resistant module.

[0009] Preferably, the air supply channel includes: an air supply duct, a first air supply outlet, and a second air supply outlet; The return air duct includes: an exhaust pipe and an exhaust outlet; The air supply duct is used for supplying air, the air exhaust duct is used for exhausting air, and the air supply volume of the air supply duct is less than the air exhaust volume of the air exhaust duct. The first air outlet and the second air outlet are located at the output end of the air supply pipe. The first air outlet is located in the central area of ​​the work area, and the second air outlet is located at the end of the work area away from the machine room. The exhaust vent is located at the input end of the exhaust pipe, and the exhaust vent is distributed on one side near the second air supply vent.

[0010] Preferably, both the inlet end of the air supply duct and the outlet end of the air exhaust duct are provided with a manifold box, and an external air duct is connected to the outside of the manifold box.

[0011] Preferably, the air supply duct and the exhaust duct are respectively equipped with a constant air volume valve and a variable air volume valve, and both the air supply duct and the exhaust duct are equipped with a manual regulating valve. The constant air volume valve, the variable air volume valve and the manual regulating valve are all distributed inside the machine room.

[0012] Preferably, the seismic module includes: a cable tray, a comprehensive support bracket, a first slot seat, and a connecting seat; The cable tray is connected to the top wall of the factory module through the integrated support bracket, and the cable tray is used to support the air supply pipe and the air exhaust pipe; One end of the integrated support bracket is detachably connected to the factory module via the first slot seat, and the other end of the integrated support bracket is detachably connected to the cable tray via the connecting seat.

[0013] Preferably, the seismic module further includes: a traction rod, a seismic connector, a transition piece, and a second slot seat; The traction rod is inclinedly positioned between the plant module and the cable tray to generate opposing tension forces at both ends of the cable tray; The seismic-resistant connectors are detachably mounted on both ends of the traction rod; The adapter is rotatably mounted on the seismic connector and is used to connect the cable tray to one end of the traction rod, and to connect the other end of the traction rod to the second slot seat; The second slot is detachably mounted on the end face of the factory module.

[0014] Preferably, the traction rod has waist-shaped grooves at both ends, and the outer side of the seismic connector is provided with a button-type lock that matches the waist-shaped groove. The button-type lock is used to fix the traction rod and the seismic connector.

[0015] Preferably, the connection module includes a pre-embedded plate, a connecting screw, and a reserved groove; The pre-embedded plate is disposed between adjacent factory modules; The connecting screw is disposed on the end face of the embedded plate, and a nut is disposed on the connecting screw. The connecting screw and the nut are used to connect the adjacent factory module. The reserved slot is formed on the side wall of the factory module and is used to install the nut onto the connecting screw.

[0016] Preferably, the connecting module further includes: a positioning block disposed on the end face of the pre-embedded plate, the outer surface of the positioning block having a limit slot, an embedding groove disposed on the adjacent side of the factory module that matches the pre-embedded plate, the embedding groove having a positioning groove that matches the positioning block, and the embedding groove also having a bolt slot that matches the connecting screw.

[0017] Compared with the prior art, the present invention has at least the following beneficial effects: This invention significantly improves the internal space utilization of the factory module through the integrated design of the pneumatic module, further reducing the number of pipes. The second air outlet in the pneumatic module can increase the gas flow output when the movable door is opened. By guiding the airflow, it prevents a large amount of untreated external air from seeping into the work area, reducing negative pressure fluctuations and stabilizing the negative pressure state inside the workshop. The anti-seismic module forms a horizontal outward pulling force on the pneumatic module, thereby stabilizing the pneumatic module in the horizontal direction and limiting the horizontal displacement of the pneumatic module, thus ensuring that the anti-seismic module will not deform, and thus ensuring the integrity and stability of the equipment structure. The connecting module allows workers to fix multiple factory modules at the same time during one assembly, thereby significantly shortening the installation time, solving the problem of time-consuming and labor-intensive methods when relying solely on bolt connections, shortening the construction cycle, and greatly reducing the operational burden on workers. Attached Figure Description

[0018] The invention will now be further described with reference to the accompanying drawings.

[0019] Figure 1 This is a schematic diagram of the pneumatic module distribution in this invention; Figure 2 This is the present invention. Figure 1 Enlarged diagram of section A in the middle; Figure 3 This is a schematic diagram of the seismic-resistant module structure in this invention; Figure 4 This is the present invention. Figure 3 Enlarged schematic diagram of section B in the middle; Figure 5 This is a three-dimensional schematic diagram of the factory module in this invention; Figure 6 This is a schematic diagram illustrating the interaction between the connection module and the factory module in this invention; Figure 7 This is the present invention. Figure 6 Enlarged diagram of section C; Figure 8 This is the present invention. Figure 7 Enlarged schematic diagram of section D in the middle; Figure 9 This is a three-dimensional schematic diagram of the connection module in this invention; Figure 10 This is a schematic diagram of the cooperation between the factory module and the buried trench in this invention; Figure 11 This is a schematic diagram of the cooperation between the factory module and the reserved slot in this invention.

[0020] In the diagram: 1. Factory module; 2. Machine room; 3. Workshop; 4. Movable door; 5. Air supply duct; 6. First air supply outlet; 7. Second air supply outlet; 8. Exhaust duct; 9. Exhaust outlet; 10. Combination box; 11. Constant air volume valve; 12. Variable air volume valve; 13. Manual regulating valve; 14. Cable tray; 15. Integrated support bracket; 16. First slot seat; 17. Connecting seat; 18. Traction rod; 19. Seismic connection component; 20. Adapter component; 21. Second slot seat; 22. Embedded plate; 23. Connecting screw; 24. Positioning block; 25. Limiting slot; 26. Embedded slot; 27. Positioning slot; 28. Bolt slot; 29. ​​Reserved slot. Detailed Implementation

[0021] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0022] The preferred embodiments described below are merely examples, and other obvious variations will be apparent to those skilled in the art. The basic principles of the invention defined in the following description can be applied to other embodiments, modifications, improvements, equivalents, and other technical solutions that do not depart from the spirit and scope of the invention.

[0023] Those skilled in the art should understand that, in the disclosure of this invention, the terms "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, the above terms should not be construed as limiting this invention.

[0024] like Figures 1 to 11 As shown in the figure, this embodiment proposes a modular workshop building, which includes: a pneumatic module, an earthquake-resistant module, and a connecting module.

[0025] Specifically, the pneumatic module is installed on the top of the factory module 1 to control the pressure difference inside the workshop.

[0026] Specifically, multiple seismic-resistant modules are installed on the top of the factory module 1 to provide seismic protection and limit the pneumatic modules.

[0027] Specifically, it is used to connect and fix multiple sets of factory building modules 1; Specifically, the internal space of the factory module 1 is divided into a machine room 2 and a work room 3 by partitions.

[0028] In this embodiment, the factory module 1 serves as the core carrier of the modular workshop, forming the installation foundation for the pneumatic module, the seismic module, and the connecting module. Different sizes of workshops can be formed through the combination of connecting modules to adapt to diverse production needs. The integrated design of the pneumatic module further enhances the utilization rate of the internal space of the factory module 1, stably maintaining a negative pressure state inside the workshop and effectively preventing the outward diffusion of pollutants such as dust and harmful gases, thus protecting the health of workers and the external environment. The seismic module provides vertical fixation to the pneumatic module and horizontal outward pulling force, thereby stabilizing the pneumatic module. The anti-vibration module is fixed in a horizontal direction, limiting the horizontal displacement of the pneumatic module. When the pneumatic module swings horizontally during transportation, the anti-vibration module applies a horizontal tension force to resist it, thus ensuring that the anti-vibration module will not deform and guaranteeing the integrity and stability of the equipment structure. By connecting the modules, workers can fix multiple factory modules 1 at the same time during one assembly, which greatly shortens the installation time, solves the problem of time-consuming and labor-intensive connection by bolt alone, shortens the construction cycle, and greatly reduces the workload of workers.

[0029] like Figure 1 As shown, in this embodiment, the internal space of the factory module 1 is divided into a machine room 2 and a work area 3 by partitions. A movable door 4 is installed at the end of the work area 3 furthest from the machine room 2. The arrangement of machine room 2 and work area 3 allows for functional zoning of the factory module 1. Machine room 2 is used to house the control components of the pneumatic module and related components requiring frequent maintenance, preventing equipment operation from interfering with production in work area 3 while also facilitating routine maintenance by staff. Work area 3 is the core production area, used to house production equipment, ensuring a clean and orderly production environment. The movable door 4 facilitates the entry and exit of personnel and materials.

[0030] In this embodiment, specifically, the air pressure module is installed on the seismic module and includes an air supply channel that provides air pressure higher than atmospheric pressure and a return air channel that provides air pressure lower than atmospheric pressure. The air supply channel and the return air channel control the pressure difference of a single workshop building and are installed on the seismic module.

[0031] In this embodiment, specifically, the air supply channel includes: air supply pipe (5), first air supply port (6) and second air supply port (7), and the return air channel includes: exhaust pipe (8) and exhaust port (9). Through the cooperation of air supply pipe 5, first air supply port 6, second air supply port 7, exhaust pipe 8 and exhaust port 9, it can be ensured that the workshop always maintains a certain range of negative pressure.

[0032] The air supply duct 5 and exhaust duct 8 are respectively mounted on the anti-vibration module. The air supply duct 5 is used for air supply, and the exhaust duct 8 is used for air exhaust. The air supply volume of the air supply duct 5 is less than the air exhaust volume of the exhaust duct 8. The first air supply outlet 6 and the second air supply outlet 7 are located at the output end of the air supply duct 5. The first air supply outlet 6 is located in the central area of ​​the work area 3, and the second air supply outlet 7 is located at the end of the work area 3 away from the machine room 2. The air supply duct 5 delivers treated air (such as filtered and temperature-controlled air) to the work area 3 to provide clean air for production. The first air supply outlet 6 can evenly supply air to the core production area of ​​the work area 3 to ensure uniform air circulation in the production area and avoid local oxygen deficiency or pollutant accumulation. The second air supply outlet 7 is close to the movable door 4 and located at the movable door 4. On both sides, when the movable door 4 is opened, the second air outlet 7 can increase the gas flow output, thereby forming an "air barrier" - preventing a large amount of untreated external air from seeping into the work room 3 through airflow guidance, reducing negative pressure fluctuations, and ensuring negative pressure stability. The exhaust outlet 9 is set at the input end of the exhaust pipe 8, and the exhaust outlet 9 is distributed on the side close to the second air outlet 7.

[0033] In addition, the exhaust duct 8 serves as the channel for exhausting polluted air from the work area 3. Its exhaust volume is greater than that of the supply duct 5. Through the pressure difference design of "exhaust volume greater than supply volume", the internal air pressure of the work area 3 is lower than the external atmospheric pressure, forming a negative pressure environment to prevent pollutants (such as dust and harmful gases) in the work area 3 from spreading outward.

[0034] In this embodiment, both the input end of the air supply duct 5 and the output end of the exhaust duct 8 are equipped with a manifold box 10. An external air duct is connected to the outside of the manifold box 10. The manifold box 10 is used to collect the air supply ducts 5 and exhaust ducts 8 of multiple factory modules 1, and then connects to a centralized air handling system (such as a fresh air unit or exhaust gas treatment equipment) through an external air duct to realize unified air supply and exhaust of multiple modules, thereby reducing system complexity and operation and maintenance costs.

[0035] like Figure 2 As shown in this embodiment, a constant air volume valve 11 and a variable air volume valve 12 are respectively installed on the air supply pipe 5. A manual adjustment valve 13 is installed on both the air supply pipe 5 and the exhaust pipe 8. The constant air volume valve 11, the variable air volume valve 12 and the manual adjustment valve 13 are all distributed inside the machine room 2. The constant air volume valve 11 is used to precisely control the air supply volume of the air supply pipe 5 to ensure that the air supply volume is stable at the preset value and to avoid negative pressure imbalance caused by air volume fluctuations. At the same time, it is convenient for staff to make adjustments and maintenance in the machine room 2.

[0036] The variable air volume valve 12 can dynamically adjust the exhaust volume according to the actual production needs of the workroom 3, such as the number of personnel and changes in production load. Under the premise of ensuring stable negative pressure, it can achieve energy-saving operation, such as reducing the exhaust volume when the production load is low, thereby reducing energy consumption.

[0037] In this embodiment, the manual regulating valve 13 serves as an emergency regulating component. When the constant air volume valve 11 or the variable air volume valve 12 malfunctions, the operator can adjust the air volume through the manual regulating valve 13 to ensure that the negative pressure environment is not interrupted. At the same time, it can assist in setting the air volume reference value during the equipment commissioning stage, thereby achieving coarse adjustment of the inlet or outlet air volume and shortening the commissioning time of the subsequent constant air volume valve 11 or variable air volume valve 12.

[0038] like Figure 3 and Figure 4 As shown, in this embodiment, the seismic module includes: a cable tray 14, a comprehensive support bracket 15, a first slot seat 16, and a connecting seat 17.

[0039] In this embodiment, the cable tray 14 is connected to the top wall of the factory module 1 through the integrated support bracket 15. The cable tray 14 is used to support the air supply pipe 5 and the exhaust pipe 8. The cable tray 14 provides stable support for the pipes. At the same time, it centrally stores the pipes to avoid the messy distribution of pipes affecting the utilization of the internal space of the factory.

[0040] Furthermore, the cable tray 14 is equipped with pipe clamps to fix the air supply pipe 5 and the exhaust pipe 8. The outside of the air supply pipe 5 and the exhaust pipe 8 can be selectively covered with thermal insulation material. The thermal insulation material protects the air supply pipe 5 and the exhaust pipe 8, preventing the pipe clamps from directly contacting the air supply pipe 5 and the exhaust pipe 8 and causing wear, as well as providing insulation, reducing energy consumption, and playing a certain buffering role to reduce the transmission of air duct vibration.

[0041] Furthermore, when the workshop environment has minimal temperature fluctuations and no corrosive gases, glass wool can be used as the insulation material to effectively reduce heat exchange between the medium inside the duct and the outside environment. When the workshop has a humid environment or slightly corrosive gases, rubber and plastic sponge should be used as the insulation material, as it has good corrosion resistance and can not only achieve the function of heat preservation but also prevent corrosion of the outer wall of the duct.

[0042] Specifically, one end of the integrated support 15 is detachably connected to the plant module 1 via the first slot seat 16, and the other end of the integrated support 15 is detachably connected to the cable tray 14 via the connecting seat 17.

[0043] In this embodiment, the length of the integrated support 15 can be adjusted according to the height of the cable tray 14. Its top end is inserted into the interior of the first slot 16 and fixed with bolts to form a rigid connection node, which can withstand the load in the vertical direction. Its main function is to transfer the weight of the pipeline and cable tray 14 to the plant module 1 and fix the vertical position of the cable tray 14, so as to play a good anti-seismic effect in the vertical direction. The integrated support 15 and the plant module 1 are detachably connected through the first slot 16, which facilitates the installation, disassembly and adjustment of the support.

[0044] In addition, the ends of the connecting seat 17 and the integrated support 15 are fixed with bolts to realize the detachable connection between the integrated support 15 and the cable tray 14, which facilitates the assembly and replacement of the cable tray 14. At the same time, by adjusting the installation position of the connecting seat 17, it can be adapted to different specifications of cable tray 14, and the supporting force of the integrated support 15 can be evenly transferred to the cable tray 14 to ensure the stability of the cable tray 14.

[0045] like Figure 4 As shown, specifically, the seismic module also includes a traction rod 18, a seismic connector 19, a transition piece 20, and a second slot seat 21.

[0046] In this embodiment, specifically, the traction rod 18 is inclinedly disposed between the plant module 1 and the cable tray 14 to form opposing tensions at both ends of the cable tray 14. The inclined traction rod 18 forms an outward tension at both ends of the cable tray 14, which is in the horizontal direction, thereby stably fixing the cable tray 14 in the horizontal direction and limiting the horizontal displacement of the cable tray 14. When the cable tray 14 swings horizontally during sea transport, the horizontal tension applied to both ends of the cable tray 14 by the traction rod 18 can effectively resist it, thereby ensuring that the integrated support 15 will not deform and ensuring the integrity and stability of the equipment structure.

[0047] Specifically, the seismic connector 19 is detachably mounted on both ends of the traction rod 18. The two ends of the traction rod 18 are provided with waist-shaped grooves. The outer side of the seismic connector 19 is provided with a button-type lock that matches the waist-shaped groove. The button-type lock is used to fix the traction rod 18 and the seismic connector 19. The button-type lock is easy to operate, requires no additional tools, and can shorten the installation and maintenance time. At the same time, the lock connection is firm and prevents it from falling off during vibration.

[0048] In this embodiment, the adapter 20 is rotatably mounted on the anti-seismic connector 19. One set of adapters 20 is used to connect one end of the cable tray 14 and the traction rod 18, and another set of adapters 20 is used to connect the other end of the traction rod 18 and the second slot seat 21. The rotating structure formed by the adapters 20 allows the traction rod 18 to adapt to different tilt angles during installation, ensuring accurate tension direction. At the same time, it can buffer the impact force through slight rotation during vibration, preventing the traction rod 18 from breaking due to rigid stress.

[0049] The second slot seat 21 is detachably mounted on the end face of the factory module 1. The second slot seat 21 serves as a fixed support point for the traction rod 18, transmitting the tension of the traction rod 18 to the factory module 1 and ensuring the stability of the tension of the traction rod 18.

[0050] It should be noted that in the actual installation process, the seismic modules are detachably installed on the cable tray 14 and the factory module 1. After the transportation is completed and the factory is put into production, the seismic modules can be disassembled and recycled, thereby greatly reducing production costs.

[0051] like Figures 5 to 11 As shown in this embodiment, specifically, the connecting module includes a pre-embedded plate 22, a connecting screw 23, and a reserved groove 29.

[0052] In this embodiment, the embedded plate 22 is set between adjacent factory modules 1. As the core load-bearing component of the connection, the embedded plate 22 can evenly transfer the load of the adjacent modules and avoid stress concentration at the connection point; at the same time, it provides an installation reference for the connecting screw 23 and the positioning block 24 to ensure accurate positioning of the connecting components.

[0053] Specifically, the connecting screw 23 is set on the end face of the embedded plate 22, and a nut is set on the connecting screw 23. The connecting screw 23 and the nut are used to connect the adjacent factory module 1. The connecting screw 23 is also used to connect the adjacent factory module 1 through the threaded engagement. The nut and the connecting screw 23 are threadedly engaged, and the embedded plate 2 is rigidly connected to the factory modules 1 on both sides through the threaded locking force, so as to realize the direct fixation and traction of the adjacent frame. Moreover, its detachable fixing method is convenient for later maintenance or module adjustment.

[0054] Furthermore, a pre-reserved slot 29 is provided on the side wall of the factory module 1 for installing the nut onto the connecting screw 23, providing operating space for nut installation. Workers can use the pre-reserved slot 29 to put the nut into the connecting screw 23 and tighten it, solving the problem of limited operating space and the need for sequential alignment in traditional bolt connections, thus improving installation efficiency.

[0055] In this embodiment, further, when the two sets of connecting screws 23 are simultaneously distributed on one side end face of the embedded plate 22, the two sets of factory modules 1 distributed on one side end face of the embedded plate 22 can be connected and fixed through the cooperation between the embedded plate 22 and the connecting screws 23.

[0056] In this embodiment, when the two sets of connecting screws 23 are respectively distributed on both sides of the pre-embedded plate 22, the two sets of factory modules 1 distributed on both sides of the pre-embedded plate 22 can be connected and fixed through the cooperation of the pre-embedded plate 22 and the connecting screws 23.

[0057] Based on the above embodiment, when multiple sets of connecting screws 23 are simultaneously distributed on both sides of the embedded plate 22, the connecting screw 23 on one end face can cooperate with two sets of factory modules 1. Therefore, at this time, through the cooperation of the embedded plate 22 and the connecting screws 23, four sets of factory modules 1 can be connected and fixed at the same time.

[0058] In this implementation, by setting connecting screws 23 on the end face of the pre-embedded plate 22, workers can fix multiple sets of factory modules 1 at the same time during one assembly, thereby greatly shortening the installation time, solving the problem of time-consuming and labor-intensive connection when relying solely on bolts, shortening the construction cycle, and greatly reducing the operational burden on workers.

[0059] like Figure 10 As shown in this embodiment, specifically, the connecting module further includes: a positioning block 24 disposed on the end face of the pre-embedded plate 22, the outer surface of the positioning block 24 having a limiting groove 25, and an embedding groove 26 disposed on the adjacent side of the factory module 1 that matches the pre-embedded plate 22. The thickness of the embedding groove 26 is at least half the thickness of the pre-embedded plate 22. The embedding groove 26 has a positioning groove 27 that matches the positioning block 24, and the embedding groove 26 also has a bolt slot 28 that matches the connecting screw 23.

[0060] Specifically, the positioning block 24 is on the same side as the connecting screw 23. The positioning block 24 serves as a guide and initial positioning element during the installation of the embedded plate 22, quickly aligning with the positioning slot 27 of the factory module 1. This prevents the embedded plate 22 from shifting, which could cause the connecting screw 23 to misalign, thus shortening the installation time. The limiting slot 25 on the outer surface of the positioning block 24 cooperates with the positioning slot 27 to achieve precise positioning of the embedded plate 22, ensuring that the connecting screw 23 corresponds one-to-one with the bolt slot 28, preventing misalignment of the screws and subsequent installation failure. Furthermore, the engagement of the limiting slot 25 and the positioning slot 27 restricts the embedded plate 22 from shifting. Horizontal displacement prevents the plate from loosening due to vibration after connection, further enhancing connection reliability. The embedded groove 26 is used to accommodate the embedded plate 22, so that the embedded plate 22 does not protrude from the frame surface, reducing space occupation. Since the thickness of the embedded groove 26 is at least half the thickness of the embedded plate 22, the embedded plate 22 can be completely accommodated in the embedded groove 26 opened on the adjacent factory module 1 during assembly. This not only protects the embedded plate 22, but also allows the side walls of the adjacent factory module 1 to fit more closely, thereby improving the stability of the connection between adjacent factory modules 1.

[0061] The above-disclosed embodiments are merely a few specific examples of the present invention. However, the embodiments of the present invention are not limited thereto, and any variations that can be conceived by those skilled in the art should fall within the protection scope of the present invention.

Claims

1. A modular workshop building, characterized in that, The workshop and plant include: A pneumatic module is installed on the top of the factory module (1) to control the pressure difference inside the workshop. Multiple seismic-resistant modules are installed on the top of the factory module (1) to provide seismic protection for the pneumatic module; A connection module is used to connect and fix multiple sets of the factory building modules (1); The internal space of the factory module (1) is divided into a machine room (2) and a work room (3) by partitions.

2. The modular workshop building according to claim 1, characterized in that, The air pressure module is mounted on the seismic-resistant module and includes an air supply channel that provides air pressure higher than atmospheric pressure and a return air channel that provides air pressure lower than atmospheric pressure. The air supply channel and the return air channel control the pressure difference of a single workshop building and are mounted on the seismic-resistant module.

3. A modular workshop building according to claim 1, characterized in that, The air supply channel includes: an air supply pipe (5), a first air supply outlet (6), and a second air supply outlet (7); The return air channel includes: an exhaust pipe (8) and an exhaust port (9); The air supply pipe (5) is used for supplying air, and the air exhaust pipe (8) is used for exhausting air, and the air supply volume of the air supply pipe (5) is less than the air exhaust volume of the air exhaust pipe (8). The first air outlet (6) and the second air outlet (7) are located at the output end of the air supply pipe (5). The first air outlet (6) is located in the central area of ​​the work room (3), and the second air outlet (7) is located at the end of the work room (3) away from the machine room (2). The exhaust port (9) is located at the input end of the exhaust pipe (8), and the exhaust port (9) is distributed on one side near the second air supply port (7).

4. A modular workshop building according to claim 3, characterized in that, Both the input end of the air supply pipe (5) and the output end of the exhaust pipe (8) are provided with a manifold box (10), and an external air duct is connected to the outside of the manifold box (10).

5. A modular workshop building according to claim 3, characterized in that, The air supply pipe (5) and the exhaust pipe (8) are respectively equipped with a constant air volume valve (11) and a variable air volume valve (12). Both the air supply pipe (5) and the exhaust pipe (8) are equipped with a manual regulating valve (13). The constant air volume valve (11), the variable air volume valve (12) and the manual regulating valve (13) are all located inside the machine room (2).

6. A modular workshop building according to claim 1, characterized in that, The seismic module includes: cable tray (14), integrated support and hanger (15), first slot seat (16) and connecting seat (17); The cable tray (14) is connected to the top wall of the factory module (1) through the integrated support bracket (15). The cable tray (14) is used to support the air supply pipe (5) and the exhaust pipe (8). One end of the integrated support bracket (15) is detachably connected to the factory module (1) through the first slot seat (16), and the other end of the integrated support bracket (15) is detachably connected to the cable tray (14) through the connecting seat (17).

7. A modular workshop building according to claim 6, characterized in that, The seismic module also includes: a traction rod (18), a seismic connector (19), a transition piece (20), and a second slot seat (21). The traction rod (18) is inclinedly disposed between the plant module (1) and the cable tray (14) to form opposing tensions at both ends of the cable tray (14); The seismic connector (19) is detachably mounted on both ends of the traction rod (18); The adapter (20) is rotatably mounted on the seismic connector (19) for connecting the cable tray (14) to one end of the traction rod (18) and for connecting the other end of the traction rod (18) to the second slot seat (21). The second slot (21) is detachably mounted on the end face of the factory module (1).

8. A modular workshop building according to claim 7, characterized in that, The traction rod (18) has waist-shaped grooves at both ends, and the outer side of the seismic connector (19) is provided with a button-type buckle that matches the waist-shaped groove. The button-type buckle is used to fix the traction rod (18) and the seismic connector (19).

9. A modular workshop building according to claim 1, characterized in that, The connection module includes a pre-embedded plate (22), a connecting screw (23), and a reserved groove (29); The embedded plate (22) is disposed between adjacent factory modules (1); The connecting screw (23) is set on the end face of the embedded plate (22), and a nut is provided on the connecting screw (23). The connecting screw (23) and the nut are used to connect the adjacent factory module (1). The reserved slot (29) is provided on the side wall of the factory module (1) for installing the nut onto the connecting screw (23).

10. A modular workshop building according to claim 9, characterized in that, The connecting module also includes: a positioning block (24) disposed on the end face of the pre-embedded plate (22), the outer surface of the positioning block (24) having a limiting groove (25), an embedding groove (26) disposed on the adjacent side of the factory module (1) matching the pre-embedded plate (22), the embedding groove (26) having a positioning groove (27) matching the positioning block (24), and the embedding groove (26) also having a bolt slot (28) matching the connecting screw (23).

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